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引用次数: 26

摘要

本文介绍了电动飞机概念热管理系统的开发和优化。本文分析了垂直起降(VTOL)飞行器,考虑了以下电源热负荷:电机、发电机、整流器和逆变器。车辆将采用液体冷却技术,以便从车辆中获取、运输和排除废热。本文的目的有三个方面:(1)提出系统级热管理系统仿真的潜在建模框架;(2)分析典型系统特性;(3)对为特定车辆开发的系统进行优化,以最大限度地减少重量增加、功率利用率和阻力。此外,本文将研究设计过程,特别是研究稳态和瞬态尺寸之间的差异,比较具有较低保真度选项的仿真技术,并量化预期误差。
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Development of a Thermal Management System for Electrified Aircraft
This paper describes the development and optimization of a conceptual thermal management system for electrified aircraft. Here, a vertical takeoff and landing (VTOL) vehicle is analyzed with the following electrically sourced heat loads considered: motors, generators, rectifiers, and inverters. The vehicle will employ liquid-cooling techniques in order to acquire, transport, and reject waste heat from the vehicle. The purpose of this paper is to threefold: (1) Present a potential modeling framework for system level thermal management system simulation, (2) Analyze typical system characteristics, and (3) Perform optimization on a system developed for a specific vehicle to minimize weight gain, power utilization, and drag. Additionally, the paper will study the design process, specifically investigating the differences between steady state and transient sizing, comparing simulation techniques with a lower fidelity option and quantifying expected error.
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